This study evaluates how harvest time influences bioactive compounds and antioxidant activity in Schizonepeta tenuifolia, identifying optimal stages for maximum biofunctionality.

This study demonstrates automated Mag-Net enrichment for high-throughput LC–MS plasma proteomics, delivering up to 4500 proteins per sample at low cost and high reproducibility.

This study integrates metal quotas, quantitative proteomics, and inferred metalloproteomes to reveal trace metal requirements and adaptation strategies in phytoplankton.

This study extends nano-DESI mass spectrometry imaging to intact protein assemblies up to 231 kDa, enabling direct identification of large complexes in tissue.

Researchers present printable, low-cost sensor technologies using smart materials to enable real-time plant health monitoring and advance smart agriculture solutions.

This study demonstrates Orbitrap-based CDMS/Direct Mass Technology as a quantitative tool for resolving and analyzing heterogeneous protein complexes below 100 kDa.

This study demonstrates Orbitrap-IRMS for full and intramolecular carbon isotope analysis of PFOA, enabling sensitive PFAS source fingerprinting without analyte decomposition.

This study couples LC to ESI-Orbitrap MS for stable isotope analysis using peak homogenization to remove chromatographic isotope effects and amount dependency, achieving precise C, N, and S isotopologue ratios.

Researchers at IOCB Prague have developed new fluorogenic labels that deliver high-contrast fluorescence microscopy, enabling precise visualization of cellular processes without background noise.

Structure-guided libraries and machine learning enable faster discovery of active nucleic acid sequences beyond random mutagenesis.